Jae-In Lee

Jae-In Lee

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Jae-In Lee

Department of Integrated Systems Engineering Hankyong National University Republic of Korea

Research Focus & Metrics

Academic Career Length

6Years (2021-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 January 2021 in Chemosphere
Verified
Journal Article
Closed access
JLJae-In Lee
Jae-In Lee
JKJin-Kyu Kang
Jin-Kyu Kang
SHSeung-Hee Hong
Seung-Hee Hong
CLChang-Gu Lee
Chang-Gu Lee
SJSanghyun Jeong
Sanghyun Jeong
Seong-Jik ParkSeong-Jik Park
Seong-Jik Park

1 January 2022 in Chemosphere
Verified
Journal Article
Closed access
JLJae-In Lee
Jae-In Lee
JKJeong-Man Kim
Jeong-Man Kim
SYSoo-Cheul Yoo
Soo-Cheul Yoo
Eun Hea JhoEun Hea Jho
Eun Hea Jho
Chang-Gu LeeChang-Gu Lee
Chang-Gu Lee
Seong-Jik ParkSeong-Jik Park
Seong-Jik Park

1 November 2022 in Journal of Korean Society of Environmental Engineers
Verified
Journal Article
Open access
PDF file
GKGun-Yeob Kim
Gun-Yeob Kim
YLYeon-Jin Lee
Yeon-Jin Lee
ECEun-Ji Cho
Eun-Ji Cho
JLJae-In Lee
Jae-In Lee
EIEun-Chae Im
Eun-Chae Im
Seong-Jik ParkSeong-Jik Park
Seong-Jik Park
Objectives : Major factors affecting ammonia emission from the soil and strategies to reduce ammonia emission were investigated through literature surveys.Methods : An academic search was conducted using keywords such as agriculture, ammonia, and fine dust, and the effects of soil characteristics on ammonia emission were summarized for each factor.Results and Discussion : Emissions of ammonia into the atmosphere can reduce economic returns for a farmer and negatively impact the atmospheric environment by acting as a precursor to PM2.5 formations. It is reported that agriculture accounts for 78% of the total ammonia emission sources in Korea. Ammonia emission from the soil is affected by the type of ammonia fertilizer, soil moisture, pH, temperature, cation exchange capacity, organic matter, and soil texture. An increase in soil moisture increases ammonia emissions. As soil pH increases, ammonia emissions increase, noticeably above 7.5. An increase in soil temperature increases the rate of hydrolysis of urea and the rate of conversion to ammonia gas, resulting in increased ammonia emissions. Soils with high cation exchange capacity adsorb ammonium to reduce ammonia emissions. Soils with a high clay content and soil organic matter content are more buffered to changes in soil pH, reducing ammonia emissions.Conclusion : Based on understanding the mechanisms and causes of ammonia emission from the soil, it is possible to establish soil and environmental management to reduce ammonia emissions into the atmosphere.